Review of Fundamentals of Covariant Quantum Mechanics in the Dual 4- Dimensional Space-Time : Substance of Wave Function, the Origin of Quantum Probability and the Cause of Quantum Superposition State

Authors

  • Dr Guoqiu Zhao

Keywords:

field matter sphere, model, matter wave, quantum probability, origin, transformation of representation

Abstract

Microscopic objects have some spatial distribution, which influences quantum phenomena. The particle model does not apply to the microworld. In this work, we use a rotating field matter sphere model. The size of the sphere change along with the movement state, harmonized with special relativity. Thus, we independently construct a dual 4-dimensional space-time to describe the microscopic quantum phenomenon and established the objective reality of plural description, which has obvious theoretical advantages. In the dual 4-dimensional space-time, the wave function describes matter waves as physical waves. Which is the physical basis of quantum communication. Quantum probability originates from the tangible structure and matter density distribution of the microscopic objects and is reflected in the transformation of space-time. Matter waves and probability waves can be transformed by using Fourier transformation. Keywords: field matter sphere; model; matter wave; quantum probability; origin; transformation

References

M. Jammer (1974) Philosophy of Quantum Mechanics. the interpretations of quantum mechanics in historical perspective.

R. Thom (1978) CATASTROPHE THEORY.

S. Sakata (1977) Shoichi Sakata: Scientific Works.

H. Yukawa (1979) Theory of Elementary Particles Extended in Space-time.

L. Smolin (2007) The trouble with physics: the rise of string theory, the fall of a science, and what comes next.

P. J. Lewis (2016) Quantum ontology: A guide to the metaphysics of quantum mechanics.

Guo-qiu Zhao (2016) Quantum Mechanics Foundation in Dual 4-Dimensional Space-Time%E2%80%94Space-Time Origins of Quantum Probability.

Guo-qiu Zhao (2022) Fundamentals of Covariant Quantum Mechanics in dual 4-dimensional space-time.

Y. Zhang (2016) Quantum Free-talk.

A. Collaboration, et al. (2014) Order of magnitude smaller limit on the electric dipole moment of the electron. 269-272.

L. Landau, R. Peierls (1930) Quantum electrodynamics in configuration space. 62, 188-200.

E. Wigner (1960) The unreasonable effectiveness of mathematics in the natural sciences. 13, 1-14.

F. W. Inman, C. E. Miller (1975) Contemporary Physics.

K. Li, J. Wang, S. Dulat, K. W. Ma (2010) Wigner functions for Klein-Gordon oscillators in noncommutative space. 49, 134-143.

R. Penrose (2006) The road to reality.

Z. K. Minev (2019) To catch and reverse a quantum jump mid-flight. 200-204.

Guo-qiu Zhao (2019) Meaning of the Wave Function and the Origin of Probability in Quantum Mechanics. 1, 32-45.

Z.-Y. Zhou (2017) Quantum twisted double-slits experiments: confirming wavefunctions' physical reality. 62, 1185-1192. https://doi.org/10.1016/j.scib.2017.08.024

Y (1984) Gauge Theory of Field.

Guo-qiu Zhao (2021) A new study on the role of covariant derivative D%CE%BC in local gauge transformation. 11, 77-79.

Guo-qiu Zhao (2013) Quantum Mechanics description of dual 4-Dimensional Space-Time. 8, 150.

Guo-qiu Zhao (2014) Quantum mechanical description and ontological basis of wave function in dual 4-dimensional Space-Time. 5(16), 51066.

Published

2023-02-20

How to Cite

Review of Fundamentals of Covariant Quantum Mechanics in the Dual 4- Dimensional Space-Time : Substance of Wave Function, the Origin of Quantum Probability and the Cause of Quantum Superposition State. (2023). London Journal of Research In Science: Natural and Formal, 23(2), 1-26. https://www.journalspress.uk/index.php/LJRS/article/view/387